EP2255484B1 - New data indicator for persistently allocated packets in a communication system - Google Patents

New data indicator for persistently allocated packets in a communication system Download PDF

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Publication number
EP2255484B1
EP2255484B1 EP09721623.8A EP09721623A EP2255484B1 EP 2255484 B1 EP2255484 B1 EP 2255484B1 EP 09721623 A EP09721623 A EP 09721623A EP 2255484 B1 EP2255484 B1 EP 2255484B1
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EP
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Prior art keywords
semi
value
persistent scheduling
new data
indicator flag
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German (de)
English (en)
French (fr)
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EP2255484A2 (en
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Esa Mikael Malkamaki
Jussi Kustaa Ojala
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Nokia Oyj
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Nokia Oyj
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    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04L—TRANSMISSION OF DIGITAL INFORMATION, e.g. TELEGRAPHIC COMMUNICATION
    • H04L1/00—Arrangements for detecting or preventing errors in the information received
    • H04L1/12—Arrangements for detecting or preventing errors in the information received by using return channel
    • H04L1/16—Arrangements for detecting or preventing errors in the information received by using return channel in which the return channel carries supervisory signals, e.g. repetition request signals
    • H04L1/18—Automatic repetition systems, e.g. Van Duuren systems
    • H04L1/1812—Hybrid protocols; Hybrid automatic repeat request [HARQ]
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04L—TRANSMISSION OF DIGITAL INFORMATION, e.g. TELEGRAPHIC COMMUNICATION
    • H04L1/00—Arrangements for detecting or preventing errors in the information received
    • H04L1/12—Arrangements for detecting or preventing errors in the information received by using return channel
    • H04L1/16—Arrangements for detecting or preventing errors in the information received by using return channel in which the return channel carries supervisory signals, e.g. repetition request signals
    • H04L1/18—Automatic repetition systems, e.g. Van Duuren systems
    • H04L1/1829—Arrangements specially adapted for the receiver end
    • H04L1/1854—Scheduling and prioritising arrangements
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04W—WIRELESS COMMUNICATION NETWORKS
    • H04W72/00—Local resource management
    • H04W72/04—Wireless resource allocation
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04W—WIRELESS COMMUNICATION NETWORKS
    • H04W72/00—Local resource management
    • H04W72/12—Wireless traffic scheduling

Definitions

  • the present invention is directed, in general, to communication systems and, more particularly, to an apparatus, system, and method to signal indication of new data for semi-persistently or persistently allocated transmission resources in a wireless communication system.
  • the Third Generation Partnership Project Long Term Evolution (“3GPP LTE”) project is the name generally used to describe an ongoing effort across the industry to improve the universal mobile telecommunications system (“UMTS”) for mobile communication to cope with continuing new requirements and the growing base of users.
  • the goals of this broadly based project include improving communication efficiency, lowering costs, improving services, making use of new spectrum opportunities, and achieving better integration with other open standards.
  • the 3GPP LTE project is not by itself a standard-generating effort, but will result in new recommendations for standards for the UMTS.
  • One optimization technique utilizes persistent or semi-persistent allocation of transmission resources assigned to user equipment.
  • Semi-persistent allocation of transmission resources generally refers to initial transmissions that are persistently scheduled, and retransmissions (e.g ., after a negative acknowledgment) that are dynamically scheduled.
  • Uses of the terms "persistent” and “semi-persistent” resources in discussions of 3GPP communication systems generally refer to similar processes, and they will be used interchangeably herein.
  • the optimization technique assigns semi-persistent resources for transmission in a downlink ("DL") or in an uplink (“UL"). For example, in systems configured to support the 3GPP LTE project, semi-persistent and dynamic resource scheduling has generally been included in system designs.
  • a pattern of periodic transmission/reception resources are assigned to user equipment ("UE") using higher layer signaling and physical downlink control channel (“PDCCH”) signaling.
  • UE user equipment
  • PDCCH physical downlink control channel
  • the periodicity is signaled with higher layer signaling (e.g., radio resource control (“RRC”) signaling), and is assigned using a PDCCH, allowing the user equipment to transmit or receive using pre-assigned resources without further explicit Layer 1/Layer 2 (“L1/L2”) control signaling (i.e ., without further PDCCH signaling).
  • RRC radio resource control
  • the user equipment generally maintains the value of a new data indicator (“NDI”) flag, which signals to the receiver the new or repeat nature of a transmission.
  • NDI new data indicator
  • the NDI flag is signaled explicitly in control signaling in a PDCCH.
  • PDCCH signaling and thus an NDI flag is not transmitted for the initial transmission to conserve transmission resources.
  • NACK negative acknowledgment
  • HARQ hybrid automatic retransmit request
  • the user equipment requires an NDI flag so that it can treat received data as a new input or as a repeated transmission of previously received data that should be combined therewith for its reliable interpretation.
  • the NDI is also used for uplink transmissions.
  • the NDI is sent in a downlink on the PDCCH, and based thereon, the user equipment either retransmits or transmits new data.
  • a system and method to reliably indicate a value for an NDI flag for semi-persistently allocated transmission resources for various signaling conditions or other allocation without the PDCCH is not presently available for the wireless applications that lie ahead. Accordingly, what is needed in the art is a communication system that can reliably exchange an NDI flag between a base station and user equipment for the various resource allocation arrangements and for the various signaling situations that can be anticipated to be encountered.
  • RAN WG1 document " LS reply on NDI vs. RV” 3GPP DRAFT; R1-081138, 3RD GENERATION PARTNERSHIP PROJECT (3GPP), MOBILE COMPETENCE CENTRE ; 650, ROUTE DES LUCIOLES ; F-06921 SOPHIA-ANTIPOLIS CEDEX ; FRANCE, vol. RAN WG1, no. Sorrento, Italy; 20080211, 15 February 2008 (2008-02-15 ), discloses possible values of a NDI flag and use thereof in toggling manner.
  • a communication system (e.g., including a wireless cellular communication network) is configured to determine a value for an NDI flag for semi-persistently allocated or scheduled resources.
  • An apparatus e.g., a base station
  • includes a processor configured to derive a value of an NDI flag.
  • the value of the NDI flag may be toggled by the processor for every transmission by the apparatus.
  • the NDI flag may also be a fixed value for persistent allocations.
  • the value of the NDI flag may also be implicitly derived from a number of hybrid automatic retransmit request ("HARQ") processes reserved for semi-persistent allocations, a system frame number (“SFN”) and semi-persistent periodicity.
  • HARQ hybrid automatic retransmit request
  • the apparatus also includes a transceiver configured to transmit the NDI flag on a control channel such as a physical downlink control channel ("PDCCH").
  • a control channel such as a physical downlink control channel (“PDCCH").
  • an apparatus e.g., user equipment
  • FIGURE 1 illustrated is a system level diagram of an embodiment of a communication system including a wireless communication system that provides an environment for the application of the principles of the present invention.
  • the communication system illustrated in FIGURE 1 represents a cellular communication system, ad hoc wireless communication systems, such as those described by IEEE Standard 802.16, provide another environment for the application of the principles of the present invention.
  • the wireless communication system may be configured to provide evolved UMTS terrestrial radio access network ("e-UTRAN”) universal mobile telecommunications services.
  • e-UTRAN evolved UMTS terrestrial radio access network
  • a mobile management entity/system architecture evolution gateway (“MME/SAE GW,” one of which is designated 110) provides control functionality for an e-UTRAN node B (designated “eNB,” an “evolved node B,” also referred to as a "base station,” one of which is designated 120) via an S1 communication link (ones of which are designated “S1 link”).
  • the base stations 120 communicate via X2 communication links (designated "X2 link”).
  • the various communication links are typically fiber, microwave, or other high-frequency metallic communication paths such as coaxial links, or combinations thereof.
  • the base stations 120 communicate with user equipment ("UE,” ones of which are designated 130), which is typically a mobile transceiver carried by a user.
  • UE user equipment
  • communication links (designated “Uu” communication links, ones of which are designated “Uu link”) coupling the base stations 120 to the user equipment 130 are air links employing a wireless communication signal such as, for example, an orthogonal frequency division multiplex (“OFDM”) signal.
  • OFDM orthogonal frequency division multiplex
  • FIGURE 2 illustrated is a system level diagram of an example of a communication system including a wireless communication system that provides an environment for the application of the principles of the present invention.
  • the wireless communication system provides an e-UTRAN architecture including base stations (one of which is designated 210) providing e-UTRAN user plane (packet data convergence protocol/radio link control/media access control/physical) and control plane (radio resource control) protocol terminations towards user equipment 220.
  • the base stations 210 are interconnected with X2 interfaces or communication links (designated "X2").
  • the base stations 210 are also connected by S1 interfaces or communication links (designated "S1") to an evolved packet core ("EPC") including a mobile management entity/system architecture evolution gateway ("MME/SAE GW,” one of which is designated 230).
  • EPC evolved packet core
  • MME/SAE GW mobile management entity/system architecture evolution gateway
  • the S1 interface supports a multiple entity relationship between the mobile management entity/system architecture evolution gateway 230 and the base stations 210.
  • inter-eNB active mode mobility is supported by the mobile management entity/system architecture evolution gateway 230 relocation via the S1 interface.
  • the base stations 210 may host functions such as radio resource management. For instance, the base stations 210 may perform functions such as internet protocol ("IP") header compression and encryption of user data streams, ciphering of user data streams, radio bearer control, radio admission control, connection mobility control, dynamic allocation of resources to user equipment in both the uplink and the downlink, selection of a mobility management entity at the user equipment attachment, routing of user plane data towards the user plane entity, scheduling and transmission of paging messages (originated from the mobility management entity), scheduling and transmission of broadcast information (originated from the mobility management entity or operations and maintenance), and measurement and reporting configuration for mobility and scheduling.
  • IP internet protocol
  • the mobile management entity/system architecture evolution gateway 230 may host functions such as distribution of paging messages to the base stations 210, security control, termination of U-plane packets for paging reasons, switching of U-plane for support of the user equipment mobility, idle state mobility control, and system architecture evolution bearer control.
  • the user equipment 220 receives an allocation of a group of information blocks from the base stations 210.
  • the communication element or device 310 may represent, without limitation, a base station, user equipment such as a terminal or mobile station, a network control element, communication node, or the like.
  • the communication element 310 includes, at least, a processor 320, memory 350 that stores programs and data of a temporary or more permanent nature, an antenna 360, and a radio frequency transceiver 370 coupled to the antenna 360 and the processor 320 for bidirectional wireless communication.
  • the communication element 310 may provide point-to-point and/or point-to-multipoint communication services.
  • the communication element such as a base station in a cellular network, may be coupled to a communication network element, such as a network control element 380 of a public switched telecommunication network ("PSTN").
  • PSTN public switched telecommunication network
  • the network control element 380 may, in turn, be formed with a processor, memory, and other electronic elements (not shown).
  • the network control element 380 generally provides access to a telecommunication network such as a PSTN. Access may be provided using fiber optic, coaxial, twisted pair, microwave communication, or similar link coupled to an appropriate link-terminating element.
  • a communication element 310 formed as a mobile station is generally a self-contained device intended to be carried by an end user.
  • the processor 320 in the communication element 310 which may be implemented with one or a plurality of processing devices, performs functions associated with its operation including, without limitation, encoding and decoding (encoder/decoder) of individual bits forming a communication message, formatting of information, and overall control (controller) of the communication element, including processes related to management of resources (resource manager).
  • functions related to management of resources include, without limitation, hardware installation, traffic management, performance data analysis, tracking of end users and equipment, configuration management, end user administration, management of user equipment, management of tariffs, subscriptions, and billing, and the like.
  • the execution of all or portions of particular functions or processes related to management of resources may be performed in equipment separate from and/or coupled to the communication element 310, with the results of such functions or processes communicated for execution to the communication element 310.
  • the processor 320 of the communication element 310 may be of any type suitable to the local application environment, and may include one or more of general-purpose computers, special purpose computers, microprocessors, digital signal processors ("DSPs"), and processors based on a multi-core processor architecture, as non-limiting examples.
  • the transceiver 370 of the communication element 310 modulates information onto a carrier waveform for transmission by the communication element 310 via the antenna 360 to another communication element.
  • the transceiver 370 demodulates information received via the antenna 360 for further processing by other communication elements.
  • the memory 350 of the communication element 310 may be of any type suitable to the local application environment, and may be implemented using any suitable volatile or nonvolatile data storage technology such as a semiconductor-based memory device, a magnetic memory device and system, an optical memory device and system, fixed memory, and removable memory.
  • the programs stored in the memory 350 may include program instructions that, when executed by an associated processor, enable the communication element to perform tasks as described herein.
  • the memory 350 may form a data buffer for data transmitted to and from the communication element 310.
  • Exemples of the system, subsystems, and modules as described herein may be implemented, at least in part, by computer software executable by processors of, for instance, the user equipment and the base station, or by hardware, or by combinations thereof. As will become more apparent, systems, subsystems and modules may be embodied in the communication element as illustrated and described above.
  • the processor 320 of an apparatus is configured to receive a cell radio network temporary identifier indicating a semi-persistent scheduling or resource allocation, and treat a reception of data with a NDI flag in accordance with the semi-persistent scheduling as a persistent initial transmission if a value of the NDI flag is equal to a first predefined value (e.g., a value of zero).
  • the processor 320 may instruct a data buffer resident in the memory 350 to flush data stored therein.
  • the processor 320 is also configured to treat a reception of data with a NDI flag in accordance with the semi-persistent scheduling as a retransmission of semi-persistent scheduling data (e.g., in response to a negative acknowledgment signal indicating a failed reception of data in accordance with a hybrid automatic retransmit request) if a value of the NDI flag is equal to a second predefined value (e.g., a value of one).
  • the processor 310 may cause a data buffer resident in the memory 350 to combine the retransmission of semi-persistent scheduling data with data stored therein.
  • the memory 350 is configured to store parameters (e.g., a time and frequency allocation, and a modulation and coding scheme for the reception of data) associated with the semi-persistent scheduling (e.g., if the value of the NDI flag is equal to the second predefined value).
  • parameters e.g., a time and frequency allocation, and a modulation and coding scheme for the reception of data
  • the semi-persistent scheduling e.g., if the value of the NDI flag is equal to the second predefined value.
  • the processor, 320 is configured to receive another cell radio network temporary identifier indicating a non-semi-persistent scheduling or resource allocation, and treat another reception of data with another NDI flag in accordance with the non-semi-persistent scheduling as one of new data if a value of the another new data indicator flag is different than a value of a previously received NDI flag, and retransmitted data if the value of the another new data indicator flag is equal to the value of the previously received new data indicator flag.
  • the processor 320 of an apparatus is configured to provide a cell radio network temporary identifier indicating a semi-persistent scheduling or resource allocation and derive a NDI flag.
  • the NDI flag has a first predefined value (e.g., a value of zero) for a persistent initial transmission of data in accordance with the semi-persistent scheduling, and a second predefined value (e.g., a value of one) for a retransmission of semi-persistent scheduling data (e.g., in response to a negative acknowledgment signal indicating a failed reception of data in accordance with a hybrid automatic retransmit request) in accordance with the semi-persistent scheduling.
  • a first predefined value e.g., a value of zero
  • a second predefined value e.g., a value of one
  • the processor 320 is also configured to provide another cell radio network temporary identifier indicating a non-semi-persistent scheduling or resource allocation and derive another NDI flag.
  • the another NDI flag has a value different than a value of a previously transmitted NDI flag for new data in accordance with the non-semi-persistent scheduling, and a value equal to the value of the previously transmitted new data indicator flag for retransmitted data in accordance with the non-semi-persistent scheduling.
  • the processor 320 of an apparatus is configured to provide a random access preamble and receive a random access response indicating a resource allocation according to a random access channel procedure.
  • the processor 320 is also configured to set a new data indicator to a predefined value (e.g., a value of zero) for a hybrid automatic repeat request process corresponding to the resource allocation, and initiate a new transmission for the hybrid automatic repeat request process.
  • the predefined value of new data indicator is used as a reference for a new data indicator flag received in an uplink grant for a subsequent transmission for the hybrid automatic repeat request process.
  • the memory 350 is configured to store parameters associated with the resource allocation.
  • processor 320 of an apparatus is configured to receive a random access preamble and provide a random access response indicating a resource allocation according to a random access channel procedure.
  • the processor 320 is also configured to receive a new transmission for a hybrid automatic repeat request process in accordance with the resource allocation and employ a predefined value (e.g., a value of zero) for a new data indicator.
  • the predefined value of the new data indicator is used as a reference for a new data indicator flag provided in an uplink grant for a subsequent transmission for the hybrid automatic repeat request process.
  • the memory 350 is configured to store parameters associated with the resource allocation.
  • FIGUREs 4A and 4B illustrated are diagrams of exemplary talk-spurt based dynamic or semi-persistent scheduling, respectively, in a downlink employing voice over internet protocol ("VoIP").
  • VoIP voice over internet protocol
  • FIGURE 4A illustrated is an example of dynamic scheduling of the VoIP packets.
  • Each data transmission is associated with a control channel (e.g., a PDCCH) transmission (downlink allocation) meaning that the new transmissions and retransmissions are sent on the PDCCH.
  • FIGURE 4A also illustrates the normal use of an NDI bit/flag: An initial allocation and VoIP packet 401 are transmitted in a downlink. The associated NDI flag is set, for example, to zero.
  • the NDI flag is toggled for each new transmission (402, 403, 404) and kept the same for retransmissions (405).
  • the transceiver knows whether the transmission should be combined with the previous transmission (same NDI flag) or whether the buffer should be flushed (different NDI flag).
  • FIGURE 4B illustrated is an example of talk-spurt based semi-persistent scheduling in a downlink for VoIP.
  • time and frequency resources and a transport format are assigned to the user equipment with L1/L2 control signaling (e.g., using a PDCCH).
  • the radio resource control provides the time periodicity, and possibly also the transport block size (“TBS").
  • TBS transport block size
  • the PDCCH is used once at the beginning of the talk spurt (downlink allocation for packet 501) to provide a time and frequency allocation, a modulation and coding scheme ("MCS"), and possibly information for hybrid automatic retransmit request ("HARQ”) and acknowledgment/negative acknowledgment ("ACK/NACK”) resources.
  • MCS modulation and coding scheme
  • HARQ hybrid automatic retransmit request
  • ACK/NACK acknowledgment/negative acknowledgment
  • the user equipment stores the time and frequency resources and transport format information in memory.
  • the data enable the user equipment either to transmit using the assigned format of packets on an uplink or to receive on a downlink with these resources, with a known periodicity pattern as signaled via the radio resource control.
  • a first VoIP packet 501 is sent with a PDCCH providing a persistent, allocated resource and a modulation and coding scheme.
  • a second (new) VoIP. packet 502 and subsequent (new) VoIP packets 503, 504 can then be sent without the need for explicit PDCCH signaling.
  • the HARQ ACK and NACK responses and an exemplary retransmission (505) are also illustrated in FIGURE 4B .
  • Retransmissions in the downlink are sent using L1/L2 control signaling (in the PDCCH). Persistent scheduling thus only needs be applied for the initial transmission.
  • NDI new data indicator
  • the NDI flag is toggled or changed between consecutive transport blocks for each new transmission, ( i.e., not for a repeated transmission) for example, in response to an ACK signal.
  • the NDI flag is left unchanged at either one or zero, and then for each new transmission the flag is changed so that, as represented in FIGURE 4A , the NDI flag for four new transmissions would be the sequence [1, 0, 1, 0] in their corresponding PDCCH.
  • the NDI flag will change from zero to one, or from one to zero, for each transmission of new data.
  • the NDI flag will keep the same value as that used for the initial (or previous) transmission of the same data packet.
  • a change in NDI value thus means that a packet is new.
  • the corresponding data buffer such as the HARQ buffer is flushed and the received information is not combined with old information in the HARQ buffer.
  • PDCCH data are not sent for the initial transmission, and thus the value of the NDI flag is not known, i.e., it is not signaled explicitly, and thus the NDI value to use in a retransmission is not known.
  • the value of the NDI flag for the initial transmission needs to be known to correctly receive and combine corresponding HARQ retransmissions.
  • One solution to knowing the value of the NDI flag is to toggle the NDI flag for each transmission, for both semi-persistent and dynamically allocated resources, and for each semi-persistent transmission possibility, i.e., even if nothing is actually sent using a semi-persistent allocation.
  • the user equipment would try to decode a transmission of new data, and accordingly assume a changed value for the NDI flag.
  • the NDI flag is sent on the PDCCH, and thus in FIGURE 4A , it is sent with downlink allocations. Transmissions without the need for further PDCCH resource allocations are semi-persistent allocations, and for these the NDI flag is not explicitly signaled. However, FIGURE 5 illustrates semi-persistent allocations for which the NDI flag value is implicitly assumed by the user equipment (the NDI value as shown in parentheses in FIGURE 5 ).
  • the PDCCH data is not sent for the initial transmission, and thus the NDI flag value is not known (i.e., which NDI flag value to use in a retransmission).
  • the value of the NDI flag for an initial transmission needs to be known to correctly receive and combine corresponding HARQ retransmissions. Thus, the same problem exists even if the NDI flag value is changed only for packets that are actually transmitted.
  • the NDI flag as introduced above is toggled for every new transmission (for persistent and dynamically allocated resources), even if nothing is actually sent using a semi-persistent allocation (i.e., also for each semi-persistent transmission possibility). This includes the case when no new data is sent, but wherein user equipment expects a semi-persistent transmission. The user equipment would attempt to decode the transmission and assume a changed value for the NDI.
  • both the user equipment and the base station change the NDI state when there are semi-persistently assigned or dynamically allocated resources, whether or not there is an actual transmission using these resources.
  • the NDI flag value is included in the PDCCH.
  • the downlink allocation refers to the downlink control information ("DCI") transmitted on the PDCCH giving the downlink allocation.
  • DCI downlink control information
  • SP semi-persistent
  • the downlink allocation refers to the downlink control information transmitted on the PDCCH giving the downlink allocation for semi-persistent use, that may include time, frequency, and the modulation and coding scheme that will be used periodically without further PDCCH input.
  • the NDI flag is sent on the PDCCH, and thus in FIGURE 5 it is sent with dynamic downlink allocations and with semi-persistent downlink allocations.
  • the transmissions without the PDCCH data (including transmissions with semi-persistently allocated downlink resources) are made using semi-persistent resources. Allocations for these transmissions are not explicitly signaled and thus the NDI flags cannot be signaled either.
  • FIGURE 5 shows for semi-persistent resources that the NDI value (implicitly) is assumed by the user equipment (NDI flag within parentheses). This is needed when combining retransmissions, particularly after reception of a NACK.
  • An unchanged NDI flag combines data in the HARQ buffer, whereas different NDI flags flush the HARQ buffer because new data has been received.
  • Retransmissions in a downlink are sent on the PDCCH, and also include an explicit NDI flag.
  • the user equipment and base station preferably have the same NDI flag understanding when a semi-persistent resource is released. Such a process should be executed carefully, especially if implicit release is assumed after N_PS unused persistent allocations. The same need for careful execution exists even if the NDI flag is changed only for packets that are actually transmitted.
  • a value of a new data indicator flag is fixed for semi-persistent resource allocation in accordance with the principles of the present invention.
  • the user equipment knows which NDI flag to assume for a transmission with a semi-persistently allocated resource.
  • the data buffer such as a soft HARQ buffer is preferably flushed of old data whenever a semi-persistent allocation is received or is assumed to have been received. In other words, the flushing of the soft HARQ buffer is not based on the NDI flag, but instead on the knowledge of persistent allocation (only new transmissions are sent using persistent allocation).
  • the NDI flag is sent on PDCCH and thus, as illustrated in FIGURE 6 , the NDI flag is transmitted with both dynamical and semi-persistent downlink allocation.
  • FIGURE 6 illustrates that the NDI flag is implicitly assumed by the user equipment (NDI within parenthesis). This is needed when combining retransmissions, wherein an unchanged NDI flag indicates combining the retransmitted data, and a different NDI flag tells to user equipment to flush the HARQ buffer.
  • the combination of dynamic and semi-persistent allocations for the same HARQ process are preferably carefully treated in the system design.
  • some HARQ processes are reserved for semi-persistent scheduling, and thus these processes are not used with dynamic resource scheduling.
  • Buffer flushing can operate normally based on a changed NDI value when dynamic allocation for a new transmission is received on the PDCCH.
  • the PDCCH data is not sent (as for a semi-persistent allocation)
  • the user equipment knows that it is a new transmission and can flush the buffer.
  • FIGURE 7 illustrated is a diagram of an example of an uplink data transmission wherein a fixed value is assumed for a new data indicator flag.
  • the corresponding uplink resource grants are sent in the downlink on the PDCCH.
  • the base station sends a persistent allocation (a resource grant) on the PDCCH (701).
  • the user equipment stores the relevant parameters (time-frequency resources, modulation and coding scheme) and sends the uplink packet (707) using the allocation.
  • the user equipment retransmits the packet (710) and base station combines the packet with the previous transmission.
  • C-RNTI cell radio network temporary identifiers
  • the user equipment When the user equipment receives the PDCCH data, it decodes it and calculates the cyclic redundancy check and masks the cyclic redundancy check with its own user equipment identification, and then compares the cyclic redundancy check with the received cyclic redundancy check. If they match, the user equipment knows that the transmission is for it. If it does not match, then either a transmission error has occurred or the transmission was sent for another user equipment (having a different user equipment identification).
  • the user equipment after decoding the PDCCH data tries to mask it with both user equipment identifications, and if one of them matches, then user equipment knows that PDCCH is meant for it, and then based on which user equipment identification matched, the user equipment knows whether the allocation is a dynamic (one time) allocation or a persistent allocation (to be stored).
  • C-RNTI_P another user equipment identification
  • C-RNTI_P is used only at the beginning of the data (talk) burst when parameters to be stored are sent on the PDCCH (i.e., for the persistent initial transmission only)
  • the C-RNTI_P is used also for retransmissions.
  • the NDI flag is handled differently in these two cases.
  • C-RNTI_P another user equipment identification (or any other known or not previously known method) indicates that the allocation is a new persistent allocation, and the relevant parameters should be stored.
  • the NDI flag can be fixed to reduce the false alarm rate.
  • C-RNTI_P indicates that this PDCCH relates to persistent scheduling, but C-RNTI_P alone does not indicate whether the PDCCH is for a new transmission (and the relevant parameters should be stored) or for a retransmission.
  • the NDI flag can be used, but in a different way than described earlier. Since transmissions using persistent allocation (without PDCCH) are always new transmissions, NDI flag toggling is not needed to indicate where a new transmission starts.
  • the NDI flag could also be recognized as, for example, a retransmission indicator flag.
  • the information part of the PDCCH data is scrambled with a known sequence before calculating the cyclic redundancy check, and the user equipment first decodes PDCCH data and descrambles the information part before it checks the cyclic redundancy check.
  • the PDCCH data is a normal PDCCH if the cyclic redundancy check matches without descrambling, and the PDCCH data is for a persistent allocation if the cyclic redundancy check matches with descrambling.
  • the NDI operations are the same as described above.
  • the value of the NDI flag When dynamic scheduling overwrites the initial transmission of semi-persistent scheduling, the value of the NDI flag will normally be toggled from the previous value for the same HARQ process if a new transmission is sent. If a retransmission is sent instead of the semi-persistent initial transmission, the value of the NDI flag is the same as for the previous transmission, and thus the user equipment should combine the transmission with the information in the HARQ buffer.
  • FIGUREs 8A and 8B illustrated are diagrams of examples of data transmission for a contention and non-contention based random access procedure, respectively, wherein a value is assumed for a new data indicator flag.
  • RACH random access channel
  • a message 810 provides a random access preamble to the base station (designated "eNB") from the user equipment (designated "UE").
  • a message 820 contains the compact format of an uplink allocation of message 830 (in contention based RACH) and possibly also the compact format for a first uplink allocation after message 820 in non-contention based RACH. This compact format does not need to have the NDI flag and it could be fixed value as described above for semi-persistent allocation.
  • the message 840 provides contention resolution to the user equipment.
  • a message 800 provides a random access preamble assignment from the base station to the user equipment.
  • the messages 810, 820 are otherwise analogous to messages 810, 820 described above.
  • the allocation can be done in RACH message 820 sent on a physical downlink shared channel (PDSCH) and provides an uplink allocation for transmission on uplink shared channel (“PUSCH”) in a compact manner. This means that this allocation is done without normal PDCCH and does not necessarily include the NDI flag.
  • PDSCH physical downlink shared channel
  • PUSCH uplink shared channel
  • an NDI flag can also be used for an allocation done inside RACH message 820 or an allocation without PDCCH if it can be ensured that there will not be several simultaneous allocations for a user equipment. Since it can be assumed that there will only be one allocation in RACH message 829, a fixed NDI flag may be employed.
  • the NDI flag value is derived from the system frame number ("SFN") or transmission time interval/subframe number for semi-persistent resource allocations.
  • SFN system frame number
  • the number of reserved HARQ processes and associated periodicities are separately signaled via the radio resource control signaling to each user equipment. Several possibilities to implement these rules and some examples are listed below. For each of the illustrated cases, the derivation of the NDI flag value is HARQ-process based.
  • the NDI flag value is derived for each HARQ process as follows.
  • the PS_period refers to the periodicity of semi-persistent scheduling signaled via the radio resource control.
  • TTI refers to the "Transmission Time Interval," which is typically 1 ms.
  • the operation "mod 2" constrains the value of the NDI flag to be 0 or 1.
  • the number of HARQ processes used for HARQ is not signaled via the radio resource control, but is derived from the number of HARQ processes in a synchronous HARQ period ( e.g., eight HARQ processes) referred to below as #HARQ process-s.
  • the NDI flag value is derived for each HARQ process that will be used for semi-persistent allocations as follows.
  • the PS_period is the periodicity of semi-persistent scheduling signaled via the radio resource control.
  • the principles of the third embodiment may also be represented in accordance with FIGURE 6 wherein the NDI flag is derived from the system frame number, etc., as described hereinabove, rather than fixing the NDI value, for example, at zero.
  • NDI new data indicator
  • a transceiver of a base station provides the initial value of the NDI flag on a physical downlink control channel ("PDCCH").
  • the NDI flag may follow a known sequence during subsequent data transmissions without further resource signaling on the PDCCH. For instance, the NDI flag is presumed to be toggled by a processor of the base station for subsequent data transmissions for persistently and dynamically allocated resources, even if nothing is actually sent on persistently allocated resources.
  • the NDI flag is presumed to be a fixed value for subsequent data transmissions for persistent allocated resources. Retransmissions by the transceiver of the base station are sent with the PDCCH data, and include an explicit value for the NDI flag. In an example, the NDI flag is signaled in downlink control information on the PDCCH. In a further embodiment, time and frequency resources, and a modulation and coding scheme ("MCS") are signaled on the PDCCH. In a further example, retransmission data are combined by the processor of the user equipment/base station with prior transmission data after transmission of a negative acknowledgment signal.
  • MCS modulation and coding scheme
  • a data buffer such as a soft HARQ buffer in memory of the user equipment/base station is flushed of old data after transmission of an acknowledgment signal.
  • the soft HARQ buffer is flushed of old data before or when receiving new data on a persistently allocated resource.
  • a processor of the base station toggles the NDI flag with a dynamic resource allocation using PDCCH opposite to that of a semi-persistent resource allocation.
  • the NDI flag controls the soft combining of a hybrid automatic retransmit request process in a processor of the user equipment.
  • the value of an NDI flag for a downlink is derived in the processor of the user equipment/base station using a system frame number, subframe number, periodicity of semi-persistent scheduling and the number of HARQ processes reserved for persistent scheduling signaled via the radio resource control.
  • the value of an NDI flag for an uplink is derived in a processor of the user equipment/base station using the number of HARQ processes in a synchronous HARQ period, subframe number, and the periodicity of semi-persistent scheduling signaled via the radio resource control.
  • the NDI value is presumed to be a fixed value for all persistent new transmissions (sent without PDCCH).
  • the same NDI value as used for an initial transmission is used for a retransmission.
  • the NDI value for a dynamically allocated new transmission is toggled by the processor of the base station/user equipment from the previous NDI value in the associated HARQ process.
  • the transmission may be semi-persistent or dynamic.
  • the exemplary embodiment provides both a method and corresponding apparatus consisting of various modules providing functionality for performing the steps of the method.
  • the modules may be implemented as hardware (including an integrated circuit such as an application specific integrated circuit), or may be implemented as software or firmware for execution by a computer processor.
  • firmware or software the exemplary embodiment can be provided as a computer program product including a computer readable storage structure embodying computer program code (i.e., software or firmware) thereon for execution by the computer processor.

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  • Engineering & Computer Science (AREA)
  • Computer Networks & Wireless Communication (AREA)
  • Signal Processing (AREA)
  • Mobile Radio Communication Systems (AREA)
  • Detection And Prevention Of Errors In Transmission (AREA)
  • Communication Control (AREA)
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